LEADER 04289nam 2200985z- 450 001 9910367738203321 005 20240107234105.0 010 $a3-03921-879-4 035 $a(CKB)4100000010106335 035 $a(oapen)https://directory.doabooks.org/handle/20.500.12854/44233 035 $a(EXLCZ)994100000010106335 100 $a20202102d2019 |y 0 101 0 $aeng 135 $aurmn|---annan 181 $ctxt$2rdacontent 182 $cc$2rdamedia 183 $acr$2rdacarrier 200 10$aCreep and High Temperature Deformation of Metals and Alloys 210 $cMDPI - Multidisciplinary Digital Publishing Institute$d2019 215 $a1 electronic resource (212 p.) 311 $a3-03921-878-6 330 $aBy the late 1940s, and since then, the continuous development of dislocation theories have provided the basis for correlating the macroscopic time-dependent deformation of metals and alloys?known as creep?to the time-dependent processes taking place within the metals and alloys. High-temperature deformation and stress relaxation effects have also been explained and modeled on similar bases. The knowledge of high-temperature deformation as well as its modeling in conventional or unconventional situations is becoming clearer year by year, with new contemporary and better performing high-temperature materials being constantly produced and investigated.This book includes recent contributions covering relevant topics and materials in the field in an innovative way. In the first section, contributions are related to the general description of creep deformation, damage, and ductility, while in the second section, innovative testing techniques of creep deformation are presented. The third section deals with creep in the presence of complex loading/temperature changes and environmental effects, while the last section focuses on material microstructure?creep correlations for specific material classes. The quality and potential of specific materials and microstructures, testing conditions, and modeling as addressed by specific contributions will surely inspire scientists and technicians in their own innovative approaches and studies on creep and high-temperature deformation. 610 $aLarson?Miller parameter 610 $avisualization 610 $abond coat 610 $ahydrogen 610 $apoly-crystal 610 $aGibbs free energy principle 610 $aconstitutive equations 610 $acreep damage 610 $aDFT 610 $afinite element method 610 $aaustenitic stainless steel 610 $astrain rate sensitivity 610 $aMCrAlY 610 $aexcess volume 610 $asuperalloy 610 $ascanning electron microscopy 610 $acreep buckling 610 $adislocation dynamics 610 $acreep 610 $aelevated temperature 610 $amodelling 610 $asize effect 610 $aresidual stress 610 $asuperalloy VAT 32 610 $awater vapor 610 $aactivation energy 610 $asmall angle neutron scattering 610 $asuperalloy VAT 36 610 $ametallic glass 610 $airon aluminides 610 $aGr.91 610 $ainternal stress 610 $arelaxation fatigue 610 $amultiaxiality 610 $acreep grain boundary 610 $agrain boundary cavitation 610 $acavitation 610 $asolute atom 610 $astress exponent 610 $aexternal pressure 610 $aP92 610 $aTMA 610 $alow cycle fatigue 610 $ananoindentation 610 $ahigh temperature 610 $aFEM 610 $aintrinsic ductility 610 $anormalizing 610 $acreep ductility 610 $acreep rupture mechanism 610 $amicrostructural features 610 $asimulate HAZ 610 $aP92 steel 610 $aglide 610 $aferritic?martensitic steel 610 $acreep rupture 610 $acyclic softening 700 $aGariboldi$b Elisabetta$4auth$01311902 702 $aSpigarelli$b Stefano$4auth 906 $aBOOK 912 $a9910367738203321 996 $aCreep and High Temperature Deformation of Metals and Alloys$93030534 997 $aUNINA